GM turns 100 - but is the future electric?

By New York Times


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The Chevrolet Volt is expected to be the icing on General MotorsÂ’ 100th birthday cake. The much-promoted sedan, which will operate as an electric car in typical local driving, is intended to provide a jump-start for the companyÂ’s second century.

The timing of the event is fortuitous, for much more is riding on the Volt than whether a new model using experimental technologies will be a hit. For if the Volt succeeds, it could put the troubled company on a whole new path after 10 decades tethered to the internal-combustion engine. If it fails, it could drag GM, and perhaps the entire struggling American auto industry, even further behind Asian competitors.

It was on Sept. 16, 1908, that William Crapo Durant filed the incorporation papers that formed GM, with a revitalized Buick as its foundation. The centennial should be a time of joy at the company. But, with losses since 2005 approaching $70 billion, and Toyota having accelerated past GM into the No. 1 spot in global auto sales, the companyÂ’s staff wonÂ’t be dancing in party hats.

Instead of toasting the glory days when GM owned half of the United States car and truck market — its share peaked at 51 percent in 1962 amid suggestions that it should be broken up under antitrust laws — GM executives are looking expectantly ahead to November 2010. That’s when the Volt, expected to break cover this week in close to final form, is due to reach customers.

By mobilizing its formidable marketing resources, GM has piqued interest in the Volt. Anticipation is high; when unauthorized photos and surreptitious video footage emerged recently, they spread across the Internet with viral intensity.

The interest goes beyond the usual curiosity about the styling and features of a wholly new model. The public, like industry veterans and seasoned experts, seems to grasp the potential: the Volt could revive DetroitÂ’s fortunes while loosening OPECÂ’s stranglehold.

Burt Rutan, the aerospace visionary whose accomplishments include the Voyager round-the-world aircraft and who is also an electric-car enthusiast, is among the believers. “I expect the Chevy Volt to be both a success and a transportation game-changer,” he said.

Though electric cars were common in the early 20th century, gasoline models had won out by the 1920s. Since then, the concept has surfaced again and again, but never in a car with mass-market appeal. Still, throughout the 20th century GM was developing breakthroughs in electrical systems — coil ignitions, electric starters, computerized powertrains and digital infotainment systems — that mainly ended up advancing its fossil-fueled vehicles.

But at the same time, GM researchers were quietly investigating alternatives to internal combustion. In the 1960s, the research and development staff experimented with fuel cells, hybrids and plug-in electric cars.

By the mid-1990s, GM took a gamble that electric propulsion was ready for public consumption. It leased 1,100 two-seat EV1 commuter cars, based on the Impact electric concept car.

The EV1 was stymied by its short range — sometimes only 50 miles on a charge. And unlike the Volt it had no backup power if the batteries ran down. Yet the EV1 had a devoted following, and lessees protested when GM took back the cars to crush them. GM called the EV1 a $1 billion learning experience.

Those lessons, and recent knowledge gained developing vastly superior lithium-ion batteries, are the VoltÂ’s great enablers. But despite widespread enthusiasm for GMÂ’s brilliant 2007 Volt concept car, there are growing doubts about the VoltÂ’s chances of success.

Some of that uncertainty can be traced to GMÂ’s reluctance to put its cards on the table, potentially ceding a competitive advantage more than two years before the car goes on sale.

But there is also considerable doubt about whether lithium-ion batteries can meet the public’s high expectations for range and durability. It is clear that both Toyota and Honda, which have done lithium-ion research, are taking a wait-and-see approach toward lithium-ion — and may actually be moving to other technologies. (All current hybrid cars use nickel-metal-hydride batteries, an older but hardly ideal technology.)

Finally, there are questions about the cost. GM executives concede that they are revising the price upward. While the company initially hinted at a $30,000 starting price, executives have recently suggested that the Volt might end up in the mid- to high-$40,000 range.

What is not in doubt is that the Volt will be a four-passenger, front-drive compact sedan. But the high-style design of the Volt concept, which captivated crowds at the 2007 Detroit auto show, has given way to a more conventional look that fits without flamboyance into the Chevrolet family. Recent spy photos reveal that the roof has been raised and the window sills altered, presumably to provide a more usable passenger cabin.

GM still stands behind its pledge that the Volt will be able to travel at least 40 miles with no exhaust emissions on a fully charged battery. The sole propulsion source is a 160-horsepower alternating-current motor. The 1.4-liter gas engine runs only when necessary to power a generator, which in turn supplies electrical current to both the battery pack and the drive motor.

The concept had a turbocharged 3-cylinder; the production car will have a naturally aspirated 4-cylinder.

Electric motors, generators and engines are old hat at GM, in contrast to the VoltÂ’s lithium-ion battery pack, a leap into uncharted territory. The 400-pound T-shaped pack provides 16 kilowatt-hours of electricity (equivalent to 21 horsepower for one hour), and is nestled between and behind the seats.

After studying lithium-ion batteries for decades, GM began working last year with two organizations to move them from the lab onto the road. The development partners are Compact Power, a subsidiary of the Korean battery maker LG Chem, and Continental Automotive Systems of Germany, using battery cells designed by A123Systems of Watertown, Mass. GM recently decided which of two competing lithium-ion chemistries it will use and which company will make the batteries, but it has made no public announcement.

The Volt is such a departure from the fossil-fuel age that there are different views on how to categorize it. Mr. Rutan calls it a “proper hybrid” because owners have the option of driving on electricity or on a combination of electricity and gasoline. Most engineers prefer “series hybrid,” which means an electrically driven car that employs a second form of power conversion to supplement the battery’s energy reserve.

GM hopes to distinguish the Volt from ordinary hybrids by labeling it an electric car. Plugging into a standard household socket for six or so hours to charge the batteries, and topping off the 12-gallon gas tank, will provide 400 miles of driving range, GM says.

An electric car that spews no emissions and consumes only a few pennies’ worth of energy commuting to work, while also capable of several hundred miles of range, is the better mousetrap that appeals to green advocates and auto industry pundits alike. The actor Ed Begley Jr., a former EV1 leaseholder who owns a Toyota Prius, said: “I think the Volt’s going to be good for everybody. None of us needs a sledgehammer to install a carpet tack. By that, I mean most trips are short — to and from work, to a restaurant or store.”

Mr. Begley said he and his wife used their Prius for long trips, and an electric car (a 2003 Toyota RAV4 EV) in town.

“The arrival of the Volt and other electric cars will reduce not only America’s dependence on foreign oil, but also the smog I experience every day in L.A.,” he said.

Chris Paine, who wrote and directed the documentary “Who Killed the Electric Car?” concurs. “GM seems motivated and ahead of the competition,” he said. “It’s a cultural shift of huge proportions for a vast auto company to embrace the concept of a car that’s more than an internal-combustion engine.

“Of course, there are huge technical and financial challenges,” he added. Still, “The price of oil and consumer interest in change should make the Volt a success.”

Industry watchers are more cautious in their optimism. Csaba Csere, editor in chief of Car and Driver magazine, said, “The Volt could put GM in the most positive light it’s enjoyed in 30 years, but its success depends on solving two issues: battery durability and cost.”

Mr. Csere (pronounced CHED-uh) noted that lithium-ion batteries had proved successful in laptop computers. “But to serve the car world, they’ll have to last 10 years, versus the typical two- or three-year laptop lifespan.”

Manahem Anderman, president of Advanced Automotive Batteries and an electric-car consultant, is also unconvinced. “Without three or four years to test battery life in both the laboratory and in the field, prudent engineering steps have to be bypassed,” he said. “Lacking long-term data, GM might have to include the cost of a battery replacement in the Volt’s price.”

Mr. Anderman added: “Rushing to deliver 60,000 electric vehicles per year poses a phenomenal risk. The business case for a vehicle with a $10,000 battery is problematic. I predict GM will end up building only a few thousand of them.” He said he did not expect the Volt “to be either a commercial success or a long-term benefit” to GM’s image.

An auto industry analyst, Jim Hall of 2953 Analytics in Birmingham, Mich., takes a more sanguine view. “You’ve got to consider the Volt an investment in new technology,” he said. “As was the case with the Prius, GM won’t earn a profit during the life cycle of the first-generation Volt, but they will gain a foot in the door with this new technology.”

GM has said that its next-generation Saturn Vue hybrid, due in fall 2010, will also receive lithium-ion batteries and be capable of plug-in recharging.

Robert C. Stempel, the former chairman of both General Motors and Energy Conversion Devices, the Michigan company that developed the nickel-metal-hydride battery, relishes what lies ahead. “The Volt has the possibility of being one of the most successful vehicles in GM history,” he said.

While the Volt is on track to be the first quasi-electric car capable of replacing the conventional sedan, there is no guarantee that it will trump the Prius to become the new green-car king.

Mr. Hall said: “If GM were alone in this initiative, the Volt probably would be enough to boost it back to the top of the technological heap. But in Toyota City, there’s a seven-story tower called the Electric Powertrain Building. And Chrysler has a hybrid project called ENVI that’s progressing more quickly than expected. So the best that can be hoped is that the Volt will move GM to the front row of companies with contemporary propulsion technology.”

Maintaining front-row status is the key to a GM that thrives in its second century. David Cole, the chairman of the Center for Automotive Research in Ann Arbor, Mich., put a fine point on what lies ahead. “The plug-in hybrid is the most notable technological advancement of the past 50 years,” he said. “GM’s challenge is making them profitable and continuing to invent a broad range of advanced vehicles.”

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France's nuclear power stations to limit energy output due to high river temperatures

France Nuclear Heatwave Output Restrictions signal reduced reactor capacity along the Rhone River, as EDF curbs output to meet cooling-water rules, balance the grid, integrate solar peaks, and limit impacts on power prices.

 

Key Points

EDF limits reactor output during heat to protect rivers and keep the grid stable under cooling-water rules.

✅ Cuts likely at midday/weekends when solar peaks

✅ Bugey, Saint Alban maintain minimum grid output

✅ France net exporter; price impact expected small

 

The high temperature warning has come early this year but will affect fewer nuclear power plants, amid a broader France-Germany nuclear dispute over atomic power policy that shapes regional energy flows.

High temperatures could halve nuclear power production at plants along France's Rhone River this week, as European power hits records during extreme heat. 

Output restrictions are expected at two nuclear plants in eastern France due to high temperature forecasts, nuclear operator EDF said, which may limit energy output during heatwaves. It comes several days ahead of a similar warning that was made last year but will affect fewer plants.

The hot weather is likely to halve the available power supply from the 3.6 GW Bugey plant from 13 July and the 2.6 GW Saint Alban plant from 16 July, the operator said.

However, production will be at least 1.8 GW at Bugey and 1.3 GW at Saint Alban to meet grid requirements, and may change according to grid needs, the operator said.

Kpler analyst Emeric de Vigan said the restrictions were likely to have little effect on output in practice. Cuts are likely only at the weekend or midday when solar output was at its peak so the impact on power prices would be slim.

During recent lockdowns, power demand held firm in Europe, offering context for current price dynamics.

He said the situation would need monitoring in the coming weeks, however, noting it was unusually early in the summer for such restrictions to be imposed.

Water temperatures at the Bugey plant already eclipsed the initial threshold for restrictions on 9 July, underscoring France's outage risks under heat-driven constraints. They are currently forecast to peak next week and then drop again, Refinitiv data showed.

"France is currently net exporting large amounts of power – single nuclear units' supply restrictions will not have the same effect as last year," Refinitiv analyst Nathalie Gerl said.

The Garonne River in southern France has the highest potential for critical levels of warming, but its Golfech plant is currently offline for maintenance until mid-August, the data showed, highlighting how Europe is losing nuclear power during critical periods.

"(The restrictions were) to be expected and it will probably occur more often," Greenpeace campaigner Roger Spautz said.

"The authorities must stick to existing regulations for water discharges. Otherwise, the ecosystems will be even more affected," he added.

 

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Nunavut's electricity price hike explained

Nunavut electricity rate increase sees QEC raise domestic electricity rates 6.6% over two years, affecting customer rates, base rates, subsidies, and kWh overage charges across communities, with public housing exempt and territory-wide pricing denied.

 

Key Points

A 6.6% QEC hike over 2018-2019, affecting customer rates, subsidies, and kWh overage; public housing remains exempt.

✅ 3.3% on May 1, 2018; 3.3% on Apr 1, 2019

✅ Subsidy caps: 1,000 kWh Oct-Mar; 700 kWh Apr-Sep

✅ Territory-wide base rate denied; public housing exempt

 

Ahead of the Nunavut government's approval of the general rate increase for the Qulliq Energy Corporation, many Nunavummiut wondered how the change would impact their electricity bills.

QEC's request for a 6.6-per-cent increase was approved by the government last week. The increase will be spread out over two years, a pattern similar to BC Hydro's two-year rate plan, with the first increase (3.3 per cent) effective May 1, 2018. The remaining 3.3 per cent will be applied on April 1, 2019.

Public housing units, however, are exempt from the government's increase altogether.

The power corporation also asked for a territory-wide rate, so every community would pay the same base rate (we'll go over specific terms in a minute if you're not familiar with them). But that request was denied, even as Manitoba Hydro scaled back increases next year, and QEC will now take the next two years reassessing each community's base rate.

#google#

So, what does this mean for your home's power bill? Well, there's a few things you need to know, which we'll get to in a second.

But in essence, as long as you don't go over the government-subsidized monthly electricity usage limit, you're paying an extra 3.61 cents per kilowatt hour (kWh).

To be clear, we're talking about non-government domestic rates — basically, private homeowners — and those living in a government-owned unit but pay for their own power.

 

The basics

First, some quick terminology. The "base rate" term we're going to use (and used above) in this story refers to the community rate. As in, what QEC charges customers in every community. The "customer rate" is the rate customers actually pay, after the government's subsidy.

 

The first thing you need to know is everyone in Nunavut starts off by paying the same customer rate, unlike jurisdictions using a price cap to limit spikes.

That's because the government subsidizes electricity costs, and that subsidy is different in every community, because the base rate is different.

For example, Iqaluit's new base rate after the 3.3 per cent increase (remember, the 6.6 per cent is being applied over two years) is 56.69 cents per kWh, while Kugaaruk's base rate rose to 112.34 cents per kWh. Those, by the way, are the territory's lowest and highest respective base rates.

However, customers in both Iqaluit and Kugaaruk will each now pay 28.35 cents per kWh because, remember, the government subsidizes the base rates in every community.

Now, remember earlier we mentioned a "government-subsidized monthly electricity usage limit?" That's where customers in various communities start to pay different amounts.

As simply as we can explain it, the government will only cover so much electricity usage in a month, in every household.

Between October and March, the government will subsidize the first 1,000 kilowatt hours, and only 700 kilowatt hours from April to September. QEC says the average Nunavut home will use about 500 kilowatt hours every month over the course of a year.

But if your household goes over that limit, you're at the mercy of your community's base rate for any extra electricity you use. Homes in Kugaaruk in December, for instance, will have to pay that 122.34 cents for every extra kilowatt hour it uses, while homes in Iqaluit only have to pay 56.69 cents per kWh for its extra electricity.

That's where many Nunavummiut have criticized the current rate structure, because smaller communities are paying more for their extra costs than larger communities.

QEC had hoped — as it had asked for — to change the structure so every community pays the same base rate. So regardless of if people go over their electricity usage limits for the government subsidy, everyone would pay the same overage rates.

But the government denied that request.

 

New rate is actually lower

The one thing we should highlight, however, is the new rate after the increase is actually lower than what customers were paying in 2014.

For the past seven months, customers have been getting power from QEC at a discount, whereas Newfoundland customers began paying for Muskrat Falls during the same period, to different effect.

That's because when QEC sets its rates, it does so based on global oil price forecasts. Since 2014, the price of oil worldwide has slumped, and so QEC was able to purchase it at less than it had anticipated.

When that happens, and QEC makes more than $1 million within a six month period thanks to the lower oil prices, it refunds the excess profits back to customers through a discount on electricity base rates — a mechanism similar to a lump-sum credit used elsewhere — the government subsidy, however, doesn't change so the savings are passed on directly to customers.

Now, the 6.6 per cent increase to electricity rates, is actually being applied to the discounted base rate from the last seven months.

So again, while customers are paying more than they have been for the last seven months, it's lower than what they were paying in 2014.

Lastly, to be clear, all the figures used in this story are only for domestic non-government rates. Commercial rates and changes have not been explored in this story, given the differences in subsidy and rate application.

 

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Ontario Government Consults On Changes To Industrial Electricity Pricing And Programs

Ontario electricity pricing consultations will gather business input on OEB rate design, Industrial Conservation Initiative, dynamic pricing, global adjustment, and system costs through online feedback and sector-specific in-person sessions province-wide.

 

Key Points

Consultations gathering business input on rates, programs, and OEB policy to improve fairness and reduce system costs.

✅ Consults on ICI, GA, dynamic pricing structures

✅ Seeks views on OEB C&I rate design changes

✅ In-person sessions across key industrial sectors

 

The Ontario government has announced plans to hold consultations to seek input from businesses about industrial electricity pricing and programs. This will be done through Ontario's online consultations directory and though in-person sector-specific consultation sessions across the province. The in-person sessions will be held in all areas of Ontario, and will target "key industries," including automotive and the build-out of electric vehicle charging stations infrastructure, forestry, mining, agriculture, steel, manufacturing and chemicals.

On April 1, 2019, the Ontario government published a consultation notice for this process, confirming that it is looking for input on "electricity rate design, existing tax-based incentives, reducing system costs and regulatory and delivery costs," including related proposals such as the hydrogen rate reduction proposal under discussion. The consultation process includes a list of nine questions for respondents (and presumably participants in the in-person sessions) to address. These include questions about:

The benefits of the Industrial Conservation Initiative (described below), including how it could be changed to improve fairness and industrial competitiveness, and how it could complement programs like the Hydrogen Innovation Fund that support industrial innovation.

Dynamic pricing structures that allow for lower rates in return for responding to price signals versus a flat rate structure that potentially costs more, but is more stable and predictable, as Ontario's energy storage expansion accelerates.

Interest in an all-in commodity contract with an electricity retailer, even if it involves a risk premium.

Interested parties are invited to submit their comments before May 31, 2019.

The government's consultation announcement follows recent developments in the Ontario Energy Board's (OEB) review of electricity ratemaking for commercial and industrial customers, and intertie projects such as the Lake Erie Connector that could affect market dynamics.

In December 2018, the OEB published a paper from its Market Surveillance Panel (MSP) examining the Industrial Conservation Initiative (ICI), and potential alternative approaches. The ICI is a program that allows qualifying large industrial customers to base their global adjustment (GA) payments on their consumption during five peak demand hours in a year. Customers who find ways to reduce consumption at those times, perhaps through DERs and enabling energy storage options, will reduce their electricity costs. This shifts GA costs to other customers. The MSP found that the ICI does not fairly allocate costs to those who cause them and/or benefit from them, and recommends that a better approach should be developed.

In February 2019, the OEB released its Staff Report to the Board on Rate Design for Commercial and Industrial Electricity Customers, setting out recommendations for new rate designs for electricity commercial and industrial (C&I) rate classes as Ontario increasingly turns to battery storage to meet rising demand. As described in an earlier post, the Staff Report includes recommendations to: (i) establish a fixed distribution charge for commercial customers with demands under 10 kW; (ii) implement a demand charge (rather than the current volumetric charge) for C&I customers with demands between 10kW and 50kW; and (iii) introduce a "capacity reserve charge" for customers with load displacement generation to replace stand-by charges and provide for recognition of the benefits of this generation on the system. The OEB held a stakeholder information session in mid-March on this initiative, and interested parties are now filing submissions in response to the Staff Report.

Whether and how the OEB's processes will fit together with the government's consultation process remains to be seen.

 

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A tidal project in Scottish waters just generated enough electricity to power nearly 4,000 homes

MeyGen Tidal Stream Project delivers record 13.8 GWh to Scotland's grid, showcasing renewable ocean energy. Simec Atlantis Energy's 6 MW array of tidal turbines advances EU power goals and plans an ocean-powered data center.

 

Key Points

A Scottish tidal energy array exporting record power, using four 1.5 MW turbines and driving renewable innovation.

✅ Delivered 13.8 GWh to the grid in 2019, a project record.

✅ Four 1.5 MW turbines in Phase 1A, 6 MW installed.

✅ Plans include an ocean-powered data center near site.

 

A tidal power project in waters off the north coast of Scotland, where Scotland’s wind farms also deliver significant output, sent more than 13.8 gigawatt hours (GWh) of electricity to the grid last year, according to an operational update issued Monday. This figure – a record – almost doubled the previous high of 7.4 GWh in 2018.

In total, the MeyGen tidal stream array has now exported more than 25.5 GWh of electricity to the grid since the start of 2017, according to owners Simec Atlantis Energy. Phase 1A of the project is made up of four 1.5 megawatt (MW) turbines.

The 13.8 GWh of electricity exported in 2019 equates to the average yearly electricity consumption of roughly 3,800 “typical” homes in the U.K., where wind power records have been set recently, according to the company, with revenue generation amounting to £3.9 million ($5.09 million).

Onshore maintenance is now set to be carried out on the AR1500 turbine used by the scheme, with Atlantis aiming to redeploy the technology in spring.

In addition to the production of electricity, Atlantis is also planning to develop an “ocean-powered data centre” near the MeyGen project.

The European Commission has described “ocean energy” as being both abundant and renewable, and milestones like the biggest offshore windfarm starting U.K. supply underscore wider momentum, too. It’s estimated that ocean energy could potentially contribute roughly 10% of the European Union’s power demand by the year 2050, according to the Commission.

While tidal power has been around for decades — EDF’s 240 MW La Rance Tidal Power Plant in France was built as far back as 1966, and the country’s first offshore wind turbine has begun producing electricity — recent years have seen a number of new projects take shape.

In December last year, Scottish tidal energy business Nova Innovation was issued with a permit to develop a project in Nova Scotia, Canada, aiming to harness the Bay of Fundy tides in the region further.

In an announcement at the time, the firm said a total of 15 tidal stream turbines would be installed by the year 2023. The project, according to the firm, will produce enough electricity to power 600 homes, as companies like Sustainable Marine begin delivering tidal energy to the Nova Scotia grid.

Elsewhere, a business called Orbital Marine Power is developing what it describes as the world’s most powerful tidal turbine, with grid-supplied output already demonstrated.

The company says the turbine will have a swept area of more than 600 square meters and be able to generate “over 2 MW from tidal stream resources.” It will use a 72-meter-long “floating superstructure” to support two 1 MW turbines.

 

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Government of Canada Invests in the Future of Work in Today's Rapidly Changing Electricity Sector

EHRC National Occupational Standards accelerate workforce readiness for smart grids, renewable energy, digitalization, and automation, aligning skills, reskilling, upskilling across the electricity sector with a career portal, labour market insights, and emerging jobs.

 

Key Points

Industry benchmarks from EHRC defining skills, training, and competencies for Canada's evolving electricity workforce.

✅ Aligns skills to smart grids, renewable energy, and automation

✅ Supports reskilling, upskilling, and career pathways

✅ Informs employers with labour market intelligence

 

Smart grids, renewable electricity generation, automation, carbon capture and storage, and electric vehicles are transforming the traditional electricity industry. Technological innovation is reshaping and reinventing the skills and occupations required to support the electrical grid of the 21st century, even as pandemic-related grid warnings underscore resilience needs.

Canada has been a global leader in embracing and capitalizing on drivers of disruption and will continue to navigate the rapidly changing landscape of electricity by rethinking and reshaping traditional occupational standards and skills profiles.

In an effort to proactively address the needs of our current and future labour market, building on regional efforts like Nova Scotia energy training to enhance participation, Electricity Human Resources Canada (EHRC) is pleased to announce the launch of funding for the new National Occupational Standards (NOS) and Career Portal project. This project will explore the transformational impact of technology, digitalization and innovation on the changing nature of work in the sector.

Through this research a total of 15 National Occupational Standards and Essential Skills Profiles will be revised or developed to better prepare jobseekers, including young Canadians interested in electricity to transition into the electricity sector. Occupations to be covered include:

  • Electrical Engineering Technician/ Technologist
  • Power Protection and Control Technician/ Technologist
  • Power Systems Operator
  • Solar Photovoltaic Installer
  • Power Station Operator
  • Wind Turbine Technician
  • Geothermal Heat Pump Installer
  • Solar Thermal Installer
  • Utilities Project Manager
  • Heat Pump Designer
  • Small System Designer (Solar)
  • Energy Storage Technician
  • Smart Grid Specialist
  • 2 additional occupations TBD

The labour market intelligence gathered during the research will examine current occupations or job functions facing change or requiring re-skilling or up-skilling, including specialized courses such as arc flash training in Vancouver that bolster safety competencies, as well as entirely emerging occupations that will require specialized skills.

This project is funded in part by the Government of Canada’ Sectoral Initiative Program and supports its goal to address current and future skills shortages through the development and distribution of sector-specific labour market information.

“Canada’s workforce must evolve with the changing economy. This is critical to building the middle class and ensuring continued economic growth. Our government is committed to an evidence-based approach and is focused on helping workers to gain valuable work experience and the skills they need for a fair chance at success. By collaborating with partners like Electricity Human Resources Canada, we can ensure that we are empowering workers today, and planning for the jobs of tomorrow.” – The Honourable Patty Hajdu, Minister of Employment, Workforce Development and Labour

“By encouraging the adoption of new technologies and putting in place the appropriate support for workers, Canada can minimize both skills shortages and technological unemployment. A long-term strategic and national approach to human resource planning and training is therefore critical to ensuring that we continue to maintain the level of growth, reliability, safety and productivity in the system – with a workforce that is truly inclusive and diverse.” – Michelle Branigan, CEO, EHRC.

“The accelerated pace of change in our sector, including advancements in technology and innovation will also have a huge impact on our workforce. We need to anticipate what those impacts will be so employers, employees and job seekers alike can respond to the changing structure of the sector and future job opportunities.” – Jim Kellett, Board Chair, EHRC.

About Electricity Human Resources Canada

EHRC helps to build a better workforce by strengthening the ability of the Canadian electricity industry to meet current and future needs for a highly skilled, safety-focused, diverse and productive workforce by addressing the electrical safety knowledge gap that can lead to injuries.

 

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Russian Missiles and Drones Target Kyiv's Power Grid in Five-Hour Assault

Assault on Kyiv's Power Grid intensifies as missiles and drones strike critical energy infrastructure. Ukraine's air defenses intercept threats, yet blackouts, heating risks, and civilian systems damage mount amid escalating winter conditions.

 

Key Points

Missile and drone strikes on Kyiv's power grid to cripple infrastructure, cause blackouts, and pressure civilians.

✅ Targets power plants, substations, and transmission lines

✅ Air defenses intercept many missiles and drones

✅ Blackouts jeopardize heating, safety, and communications

 

In a troubling escalation of hostilities, Russian forces launched a relentless five-hour assault on Kyiv, employing missiles and drones to target critical infrastructure, particularly Ukraine's power grid. This attack not only highlights the ongoing conflict between Russia and Ukraine but also underscores the vulnerability of essential services, as seen in power outages in western Ukraine in recent weeks, in the face of military aggression.

The Nature of the Attack

The assault began early in the morning and continued for several hours, with air raid sirens ringing out across the capital as residents were urged to seek shelter. Eyewitnesses reported a barrage of missile strikes, along with the ominous whir of drones overhead. The Ukrainian military responded with its air defense systems, successfully intercepting a number of the incoming threats, but several strikes still managed to penetrate the defenses.

One of the most alarming aspects of this attack was its focus on Ukraine's energy infrastructure. Critical power facilities were hit, resulting in significant disruptions to electricity supply across Kyiv and surrounding regions. The attacks not only caused immediate outages but also threatened to complicate efforts to keep the lights on in the aftermath.

Impacts on Civilians and Infrastructure

The consequences of the missile and drone strikes were felt immediately by residents. Many found themselves without power, leading to disruptions in heating, lighting, and communications. With winter approaching, the implications of such outages become even more serious, as keeping the lights on this winter becomes harder while temperatures drop and the demand for heating increases.

Emergency services were quickly mobilized to assess the damage and begin repairs, but the scale of the attack posed significant challenges. In addition to the direct damage to power facilities, the strikes created a climate of fear and uncertainty among civilians, even as many explore new energy solutions to endure blackouts.

Strategic Objectives Behind the Assault

Military analysts suggest that targeting Ukraine's energy infrastructure is a calculated strategy by Russian forces. By crippling the power grid, the intention may be to sow chaos and undermine public morale, forcing the government to divert resources to emergency responses rather than frontline defenses. This tactic has been employed previously, with significant ramifications for civilian life and national stability.

Moreover, as winter approaches, the vulnerability of Ukraine’s energy systems becomes even more pronounced, with analysts warning that winter looms over the battlefront for civilians and troops alike. With many civilians relying on electric heating and other essential services, an attack on the power grid can have devastating effects on public health and safety. The psychological impact of such assaults can also contribute to a sense of hopelessness among the population, potentially influencing public sentiment regarding the war.

International Response and Solidarity

The international community has responded with concern to the recent escalation in attacks. Ukrainian officials have called for increased military support and defensive measures to protect critical infrastructure from future assaults, amid policy shifts such as the U.S. ending support for grid restoration that complicate planning. Many countries have expressed solidarity with Ukraine, reiterating their commitment to support the nation as it navigates the complexities of this ongoing conflict.

In addition to military assistance, humanitarian aid is also critical, and instances of solidarity such as Ukraine helping Spain amid blackouts demonstrate shared resilience. As the situation continues to evolve, many organizations are working to provide relief to those affected by the attacks, offering resources such as food, shelter, and medical assistance. The focus remains not only on immediate recovery efforts but also on long-term strategies to bolster Ukraine’s resilience against future attacks.

 

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